Using a three-step transverse laser cooling scheme, a strongly diverging flow of metastable Ne(3 s 3 P 2] atoms is compressed into a well-collimated, small diameter atomic beam (e.g., 1.4 mrad HWHM divergence at 3.6 mm beam diameter) with an unmodified axial velocity distribution centered at 580 m/s. The maximum increase in beam flux 1.04 m downstream of the source is a factor 1400; the maximum increase in phase space density, i.e., brightness, is a factor 160. The laser power used is only 140 mW. The scheme is extendable to a large variety of atomic species and enables the application of bright atomic beams in many areas of physics
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
Laser manipulation techniques for neutral atoms can be used to produce atomic beams which are more i...
Using a three-step transverse laser cooling scheme, a strongly diverging flow of metastable Ne(3 s 3...
Using a three-step transverse laser cooling scheme, a strongly diverging flow of metastable Ne(3 s 3...
Using a three-step transverse laser cooling scheme, a strongly diverging flow of metastable Ne(3 s 3...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
The study of collisions between excited atoms requires high-intensity atomic beams to achieve detect...
The study of collisions between excited atoms requires high-intensity atomic beams to achieve detect...
The study of collisions between excited atoms requires high-intensity atomic beams to achieve detect...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
Laser manipulation techniques for neutral atoms can be used to produce atomic beams which are more i...
Using a three-step transverse laser cooling scheme, a strongly diverging flow of metastable Ne(3 s 3...
Using a three-step transverse laser cooling scheme, a strongly diverging flow of metastable Ne(3 s 3...
Using a three-step transverse laser cooling scheme, a strongly diverging flow of metastable Ne(3 s 3...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
The study of collisions between excited atoms requires high-intensity atomic beams to achieve detect...
The study of collisions between excited atoms requires high-intensity atomic beams to achieve detect...
The study of collisions between excited atoms requires high-intensity atomic beams to achieve detect...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
We employ laser cooling to intensify and cool an atomic beam of metastable Ne(3s) atoms. Using sever...
Laser manipulation techniques for neutral atoms can be used to produce atomic beams which are more i...